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Whitepaper18 pages · May 2026

Own Your AI Stack: a whitepaper for energy operators

AI in oil and gas will hit $17B by 2030, yet half of enterprise pilots never ship. The fix is engineering execution, not better models.

Tannistha Maitiby Tannistha Maiti · Senior AI Researcher
In this whitepaper16 min read
  • IThe opportunity
  • IIThe technical landscape
  • IIIOur approach
  • IVCase examples
  • VImplementation roadmap
  • VIRisk and mitigation
  • VIIConclusion and next steps

The AI in oil and gas market is projected to grow from $7.2B in 2025 to $17B by 2030, yet up to half of all enterprise AI projects never reach production. The cause is not model quality. It is the missing engineering layer between a notebook that works and a workflow that ships.

I

The opportunity

AI spending in oil and gas is compounding faster than almost any other category of operational technology in the sector. Upstream applications, exploration, reservoir characterisation, drilling, production optimisation, account for the dominant share, reflecting where the highest-value, hardest-to-replicate workflows sit. This is a story about who owns the intelligence layer on top of the world’s most expensive industrial data.

Market context
$7.2B
AI in oil & gas market, 2025
$17B
Projected market, 2030
18.5%
CAGR through 2030
61%
Share held by upstream

The pull is no longer experimental. Devon Energy reported 25% productivity gains from AI drilling optimisation at CERAWeek 2025; ADNOC’s ENERGYai programme compressed seismic model-build times by 75% in its first year. Yet the IEA’s Energy and AI Special Report (2025) found the single biggest barrier to scaled adoption is not data or compute; it is the missing internal capability to run a working model as an operational service.

II

The technical landscape

A working model is roughly 15% of the journey. The other 85% is the engineering stack underneath it, six layers that turn a notebook into a workflow that ships inside the operator’s security perimeter.

Model · 15%
Engineering stack · 85%
VIPlatform & deploymentInside the operator's security perimeter; full ownership transfer at scale.
VAgentsUpload, run, visualise, report. Agentic orchestration of multi-step subsurface workflows.
IVAI / MLHulde foundation model plus five domain modules. Versioning, drift, MLOps.
IIIData unificationSubsurface, operational, and sensor data on a single ontology.
IIData engineeringIngestion and provenance for LAS, SEG-Y, raster logs, image logs.
IHPCSeismic-scale compute provisioned for inference and retraining.
THE 85% UNDER THE MODEL · 6-LAYER STACK~50%of pilots never ship3 / 6 layers load-bearingBuild the stack up, the model is only the capA model is only as production-ready as the weakest layer below it.production ceilingModel, ~15% of the journey⤓ detached, POC purgatoryHPCbuilt · load-bearingData engineeringbuilt · load-bearingData unificationbuilt · load-bearingAI / MLdrift watch is decorativeAgentsunauditablePlatform & deploymentoutside the perimeterbuild linedrag the build line ↑ · column sizing schematicWHY THE PILOT STALLS3 layers missing below the model.Lowest gap: AI / ML:drift watch is decorative.The model can’t reach production overan incomplete stack. It joins the ~50%that never ship, a failure of plumbing.The working model is ~15% of the journey.The other ~85% is the six-layer stack,and pilots die where the stack has seams.~15% model / ~85% stack, the six named layers & the ~50%-never-ship figure are the whitepaper’s own · column sizing schematicES-5033 · PILOT-TO-PRODUCTION STACK FUNNEL · OPERATOR AI
Pilots don’t stall because the model is weak. The working model is only ~15% of the journey; the other ~85% is a six-layer engineering stack (HPC → Data engineering → Data unification → AI/ML → Agents → Platform/deployment), and a project ships only when every layer below the model is built to production grade. Drag the build line up the load-bearing column: with all six built the model reaches the production ceiling; with any gap below it the model detaches into POC purgatory, the ~50% that never ship. The ~15%/~85% split, the six layers and the ~50% figure are the whitepaper’s own; the equal-sixths column sizing is schematic.

A model that performs beautifully on a curated 200-well training set fails on the operator’s actual 4,700-well portfolio because the LAS headers are inconsistent, the raster logs were never digitised, and the SEG-Y was acquired across three decades by four different contractors. This is not a failure of machine learning. It is a failure of plumbing.

The vendor response, the one that has dominated the last five years, is to package the plumbing into a closed platform. These offerings solve a real problem, but they solve it in a way that ingests operator subsurface data to train shared platform models, converting hard-won reservoir intelligence into a vendor asset.

Closed vendor platform
  • Operator subsurface data trains shared models
  • Reservoir intelligence becomes vendor IP
  • Workflow redesign owned by vendor services arm
  • Switching costs accumulate with every well ingested
Operator-owned full stack
  • Open-weights foundation model (Hulde, RAIL licence)
  • Data and models remain inside operator perimeter
  • Workflow redesign owned by the asset team
  • Capability transfer is the explicit end state
WHO OWNS THE INTELLIGENCE · WELLS INGESTED51%of your reservoir IP now a vendor assetLOCK-IN · RATCHETED ONE-WAYIngest wells, watch who keeps the intelligenceSwitching cost accumulates with every well ingested, and the ratchet only climbs.Closed vendor platformOperator-owned stackWELLS INGESTED2,400200 validated4,700-well realityOPERATOR RESERVOIR IPretained · in perimeter→ vendor assetSWITCHING COSTratchet ↑ one-wayClosed platformYour subsurface data trains thevendor’s shared model. Reservoirintelligence becomes vendor IP;the ratchet doesn’t reverse.SLB Delfi · Halliburton iEnergy ·hyperscaler stacksValidated on 200 wells,the real portfolio is 4,700.Every one you ingest movesownership one way.4,700 vs 200 wells, the closed/operator mechanics & named platforms are the whitepaper’s own · IP-bled & cost magnitudes are schematic (direction sourced)ES-6321 · SUBSURFACE IP LOCK-IN RATCHET · OPERATOR AI
A closed vendor platform and an operator-owned stack diverge on one axis: who owns the intelligence as wells accumulate. Every well ingested into a shared-model platform converts more operator reservoir IP into vendor asset and ratchets switching cost up, one-way: ingested data can’t be un-ingested (drag the slider back and the lock holds). Toggle to the operator-owned stack and IP stays inside the perimeter, switching cost stays flat. The 4,700-well portfolio vs 200-well training set and the named platforms are the whitepaper’s own; the IP-bled fraction and cost magnitude are schematic (the direction is sourced).
III

Our approach

EarthScan is an AI engineering company. We are not a model lab, not a services boutique, and not a platform reseller. We build and operate the full stack, six capability layers from HPC up to deployment, and we hand the keys back to the operator at scale.

The foundation underneath the modules is Hulde, our procedural foundation model from the Hominis family, released with open weights under a RAIL licence. Hulde is purpose-built for a property that matters more in subsurface than in any consumer domain: hallucination resistance. It prioritises correct execution of a procedural workflow over fluent narration of one.

A general-purpose LLM optimised to sound confident is the wrong tool for a million-dollar well decision. For subsurface workflows, hallucination resistance is a prerequisite, not a feature.
Five production modules
  • Vug Detection
  • Fracture & Bedding Detection
  • VSP Analysis
  • Well Log Detection
  • Geomechanical Analysis
Hulde foundation model
  • Hominis family, open weights
  • RAIL licence, no data lock-in
  • Procedural, not narrative
  • Hallucination-resistant
Six capability layers
  • HPC
  • Data engineering
  • Data unification
  • AI / ML
  • Agents
  • Platform deployment
IV

Case examples

Operator A, a North Africa independent, ran a six-month POC with a tier-one vendor on an unconventional play. The technical results were validated. Eighteen months later, the model is not in production. The reason is mundane and instructive: no one owned the integration layer between the vendor’s model environment and the asset team’s existing workflow.

Operator B, a Gulf region independent, engaged EarthScan to deploy Well Log Detection across a 47-well evaluation portfolio. After eight weeks, the agentic workflow reduced evaluation time from roughly 14 hours per well to under 90 minutes, with geoscientist review retained for anomaly cases and final sign-off.

Operator B, Well Log Detection (47 wells)
Manual evaluation per well
14 hrs
Agentic workflow per well
<90 min
About an 89% time reduction, roughly 600 expert hours freed across the portfolio, with the operator retaining the platform, the weights, and the data.
OPERATOR B · 47-WELL PORTFOLIO~306 hexpert hours redeployed to higher-leverage work24 / 47 wells · 14 h → <90 minSweep the portfolio, the model frees time, not jobsPer-well evaluation falls ~89%, geoscientist review stays for anomalies and sign-off.Redeployed to higher workRaw hours saved14 h<90 m← drag to convert the portfolio · grey = manual, teal = agenticgeoscientist review retained (anomalies + sign-off), never zero · schematic height14 h → <90 min, ~89%, 47 wells, ~600 hours in 8 weeks & review retained are the whitepaper’s own · review-band height schematicES-3309 · GEOSCIENTIST HOURS RECLAIMED · OPERATOR B
The engineering layer didn’t replace the geoscientist, it moved expert time off rote evaluation onto judgment. On Operator B’s 47-well portfolio, per-well Well-Log-Detection evaluation fell from 14 hours to under 90 minutes (~89%), reclaiming ~600 expert hours in 8 weeks, while geoscientist review was explicitly retained for anomaly cases and final sign-off. Sweep across the portfolio: each 14-hour bar collapses to a <90-minute sliver and an amber “review retained” band rides every converted well, never shrinking to zero.
V

Implementation roadmap

We deliver in three phases: Discover, Pilot, Scale. Discover is short enough to fit inside a single budget cycle and produces an engineering artefact, not a strategy deck. Pilot is long enough to expose every layer of the stack to real operator data. Scale is paced to the operator’s risk appetite, not the vendor’s revenue model.

PilotWeeks 5-12

One production module integrated into the asset workflow: ingestion and provenance, a domain model on Hulde, an agentic workflow, MLOps scaffolding.

By month twelve, the operator owns the platform: the weights, the pipelines, the agents, the runbooks, and the team know-how to run and extend it independently. EarthScan transitions to a steady-state support role, or out entirely.

VI

Risk and mitigation

No engagement is risk-free, and an honest whitepaper says so. The dominant risks, in roughly the order they appear, are data readiness, integration debt, change management, and over-scoping.

  • Data readiness is the most common reason a Pilot slips. Our mitigation is the Discover phase itself: we surface the gap before signing a Pilot scope, and if the data is not ready, we say so out loud.
  • Integration debt: pilots designed as parallel sandboxes rarely convert. We insist on integration into the asset team’s existing tools as a non-negotiable Pilot requirement.
  • Change management: a module no geoscientist trusts is shelfware. We retain explicit review for anomaly cases and surface model confidence and provenance on every output.
  • Over-scoping: a Pilot that tries to deploy three modules in twelve weeks delivers none. We scope to one module, one asset, one workflow.
VII

Conclusion and next steps

The decision in front of operators is not whether to adopt AI; the market is moving from $7.2 billion to $17 billion in five years and that question is settled. The decision is whether the AI deployed on your asset is owned by you or by a platform vendor whose interest is maximising billable services on your subsurface data.

The next step is a four-week Discover engagement on a single asset. The output is a signed engineering brief: what is ready, what is not, what the highest-ROI first module is, and what the twelve-week Pilot looks like. If the readiness is not there, we will say so.

By the numbers
$7.2B→$17B
AI in oil & gas, 2025 to 2030
~50%
Enterprise AI projects that never ship
75%
Seismic build-time cut by ADNOC's ENERGYai
12 wks
Discover + Pilot to production
References
  1. [1]Knowledge Sourcing Intelligence. AI in Oil and Gas Market (2025). Market sized at $7.2B (2025), forecast $17B by 2030, 18.5% CAGR.
  2. [2]Mordor Intelligence. AI in Oil and Gas Market (2025). Upstream accounts for 61% of market; ADNOC ENERGYai cut seismic model-build times by 75% in 2024.
  3. [3]International Energy Agency. Energy and AI Special Report (2025). Missing internal expertise identified as the dominant adoption barrier.
  4. [4]IDC (2025). Up to 50% of enterprise AI projects collapse before production.
  5. [5]Devon Energy, CERAWeek 2025. Reported 25% productivity gains from AI drilling optimisation.
  6. [6]McKinsey & Company. The State of AI (2025). Workflow redesign identified as the single strongest EBIT correlate of AI value capture.
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